• DocumentCode
    62719
  • Title

    Modeling Minority Carriers Related Capacitive Effects for Transient Substrate Currents in Smart Power ICs

  • Author

    Stefanucci, Camillo ; Buccella, Pietro ; Kayal, Maher ; Sallese, Jean-Michel

  • Author_Institution
    Swiss Fed. Inst. of Technol., Lausanne, Switzerland
  • Volume
    62
  • Issue
    4
  • fYear
    2015
  • fDate
    Apr-15
  • Firstpage
    1215
  • Lastpage
    1222
  • Abstract
    This paper presents an extended model for transient and ac circuit-level simulation of minority carriers propagation through the substrate of smart power integrated circuits (ICs). A p-n junction and a diffusion resistor with capacitive components are proposed to efficiently simulate transient parasitic coupled currents in high-power stages. From a general chip layout, an equivalent substrate network including capacitive effects (junction and diffusion capacitances) can be extracted and parasitic bipolar transistor can be simulated for the first time in transient operation by circuit simulators once the minority carriers continuity conditions are satisfied. This paper shows simulation results of the implemented models in good agreement with those obtained from technology computer-aided design. This implies that transient layout dependent mechanisms between high-voltage aggressor wells and low-voltage victims can be verified in early stages of IC design flow.
  • Keywords
    bipolar transistors; equivalent circuits; integrated circuit design; minority carriers; power integrated circuits; IC design flow; capacitive effects; diffusion resistor; equivalent substrate network; minority carriers propagation; p-n junction; parasitic bipolar transistor; smart power IC; smart power integrated circuits; technology computer-aided design; transient parasitic coupled currents; transient substrate currents; Capacitance; Equations; Integrated circuit modeling; Junctions; Mathematical model; Substrates; Transient analysis; Bipolar transistors; minority carriers; power semiconductor devices; smart power integrated circuit (IC); substrate noise; substrate noise.;
  • fLanguage
    English
  • Journal_Title
    Electron Devices, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0018-9383
  • Type

    jour

  • DOI
    10.1109/TED.2015.2397394
  • Filename
    7039261